Abstract:
The present description concerns an embedded electronic system or a method implemented by such a system including: at least one volatile memory (RAM); at least one low-level operating system managing the allocation of areas of the volatile memory to a plurality of high-level operating systems, each including one or a plurality of applications (App20, App21), wherein data of execution of one or a plurality of tasks of said first application (App20) are partly transferred by the low-level operating system from said volatile memory to a non-volatile memory (WM) when the execution of said task of the first application is interrupted by the execution of at least one task of a second application (App21).
Abstract:
A method comprises molding laser direct structuring material (10), having particles (12) dispersed therein, onto at least one semiconductor die (11), applying laser beam energy to produce structured formations (14) with a part of the particles (12) exposed at the structured formations (14), contacting the structured formations (14) with a solution containing one or more organic compounds, forming a film covering at least partly the structured formations (14) and comprising one or more conductive polymers resulting from a polymerization reaction of the one or more organic compounds, and forming electrically-conductive material (24) onto the film.
Abstract:
La présente description concerne un élément sécurisé embarqué (E) comprenant une mémoire volatile (PRAM), et étant configuré pour mettre en oeuvre au moins une partie d'une première application (App30) et au moins une partie d'une ou plusieurs deuxièmes applications (App31) adaptées à être mises en oeuvre par au moins un système d'exploitation de bas niveau (113) de l'élément sécurisé embarqué (E), dans lequel: - des données d'exécution de ladite première application (App30) sont stockées dans une première partie réservée de ladite mémoire volatile (PRAM) configurée pour stocker uniquement des données d'exécution de ladite première application (App30); et - des données d'exécution desdites deuxièmes applications sont stockées dans une deuxième partie de ladite mémoire volatile (PRAM) distincte de la première partie réservée de ladite mémoire volatile (PRAM).
Abstract:
A device (504) includes an interface (508) and Time Division Multiple Access (TDMA) Medium Access Control (MAC) circuitry (510) coupled to the interface. The TDMA MAC circuitry (510) detects (610) a beacon (210) in a frame (202) having a defined frame duration and determines (620) a frame compensation value based on a start time of the frame, a reference start time of the frame, and a number of elapsed frames. A current frame duration value is determined (622) based on the frame compensation value and the defined frame duration.
Abstract:
An electronic device includes a rectifier bridge (130) that includes an input configured to be coupled to power over Ethernet (PoE) power sourcing equipment (PSE), and an output. A transistor (140) is configured to selectively couple the output with a load. The electronic device includes a maintain power signature (MPS) device (170), and a control circuit (180). The control circuit is to maintain the transistor on when a load current is above a threshold, source current from the rectifier bridge to the MPS device when the load current is below the threshold, and switch the transistor to a diode configuration when the load current is below the threshold.
Abstract:
A method for providing, e.g. by means of an application (S_APPa) installed on an Universal Integrated Circuit Card (108a),a response to a SCP80 command is described. Initially, a first SMS message is received, e.g. by means of a mobile device (10), from a remote server (MNO) and decrypted according to the protocol SCP80. Specifically, this first SMS message contains a first command requesting the execution of a proactive command. Once, the proactive command has been executed and a respective response has been obtained,a second SMS message (SMS3) is transmitted to the remote server (MNO) indicating that the response has been obtained. Next, a third SMS message (SMS4) is received from the remote server (MNO)and decrypted according to the protocol SCP80. Specifically, this third SMS message (SMS4) contains a second command (C-APDU2) requesting the transmission of a response message determined as a function of the proactive command response(RSP1). Accordingly, the response message (R-APDU1)may be generated, encrypted according to the protocol SCP80 and transmitted(SMS5) the remote server (MNO).
Abstract:
A method for transmitting at least one IP data packet to an IP address being associated with a host name is described. Specifically, in order to obtain the IP address associated with a host name, a first service message of the Short Message Service is transmitted to a Short Message Service gateway server (402), wherein the first service message comprising a host name resolution request for the host name. In response to this request, a second service message of the Short Message Service is received from the Short Message Service gateway server (402), wherein the second service message comprising the IP address associated with the host name. Finally, at least one IP data packet is transmitted to the IP address associated with the host name.
Abstract:
It's illustrated a method to detect a message compatible with the OTA standard (Over The Air) and affected by a wrong ciphering. The method comprises the steps of receiving the ciphered OTA message; deciphering the OTA message; reading a counter field (PCNTR) of padding bytes in the deciphered OTA message and reading corresponding padding bytes in the OTA message deciphered; detecting at least one bit 1 in at least one of the padding bytes of the OTA message deciphered, said at least one bit 1 being indicative of the wrong ciphering.
Abstract:
An apparatus has a data store configured to store access activity information. The access activity information indicates which one or more of a plurality of different access parameter sets is active. The data store is also configured to store access defining information, which defines, at least for each active access parameter set, a number of channels, location information of said channels, and interleaving information associated with said channels.
Abstract:
A communication interface (921) for interfacing a transmission circuit (901) with an interconnection network (701), wherein the transmission circuit (901) requests via a transmission request transmission of a predetermined amount of data. In particular, the communication interface (921) receives data segments from the transmission circuit (901), stores the data segments in a memory (922), and verifies whether the memory (922) contains the predetermined amount of data. In the case where the memory (922) contains the predetermined amount of data, the communication interface (921) starts transmission (924) of the data stored in the memory (922). Instead, in the case where the memory (922) contains an amount of data that is less than the predetermined amount of data, the communication interface (921) determines a parameter that identifies the time that has elapsed since the transmission request or the first datum received from the aforesaid transmission circuit, and verifies whether the time elapsed exceeds a time threshold. In the case where the time elapsed exceeds the time threshold, the communication interface (921) starts transmission (924) of the data stored in the memory.